Treatment of high-strength ammonium wastewater by polyvinyl alcohol–sodium alginate immobilization of activated sludge

[Display omitted] •Immobilization technology was suitable for the high-strength ammonium wastewater.•The maximum ammonium removal load was 60.84–240.15mgN/(L-particlesh).•Immobilized beads had a dense network structure that was suitable for microbial growth.•Heterotrophic nitrifying and aerobic deni...

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Veröffentlicht in:Process biochemistry (1991) 2017-12, Vol.63, p.214-220
Hauptverfasser: Xu, Xiaoyi, Jin, Zhaoxia, Wang, Bin, Lv, Chenpei, Hu, Bibo, Shi, Dezhi
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container_start_page 214
container_title Process biochemistry (1991)
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creator Xu, Xiaoyi
Jin, Zhaoxia
Wang, Bin
Lv, Chenpei
Hu, Bibo
Shi, Dezhi
description [Display omitted] •Immobilization technology was suitable for the high-strength ammonium wastewater.•The maximum ammonium removal load was 60.84–240.15mgN/(L-particlesh).•Immobilized beads had a dense network structure that was suitable for microbial growth.•Heterotrophic nitrifying and aerobic denitrifying bacteria may provide unconventional denitrifying pathways. We employed microorganism embedding immobilization technology to treat high-strength ammonium(NH4+-N) wastewater. Experiments were conducted in batch reactors with different initial ammonium concentrations (50–400mg/L), 10% particle dosage rates, 7.5–8.5pH, and 495-min operation cycle. Stable treatment efficiency was reached in the 28th, 40th, 55th, 58th, and 58th cycles with average ammonium removal rates of 100, 100, 80.9, 64.6, and 48.0%, respectively. The ammonium removal reaction followed zero-order reaction kinetics. Brunauer-Emmett-Teller (BET) and Scanning Electron Microscopy (SEM) demonstrated that the specific surface area and pore size of beads in stable phase were larger than corresponding values for the unused embedding beads, and microorganisms were found in the interior and external surface of beads. High-throughput sequencing illustrated that the microbial community composition significantly differed between the interior and external surface of embedding beads. And the existence of heterotrophic nitrifying and aerobic denitrifying bacteria may provide additional pathways for biological nitrogen removal in the reactors.
doi_str_mv 10.1016/j.procbio.2017.08.016
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We employed microorganism embedding immobilization technology to treat high-strength ammonium(NH4+-N) wastewater. Experiments were conducted in batch reactors with different initial ammonium concentrations (50–400mg/L), 10% particle dosage rates, 7.5–8.5pH, and 495-min operation cycle. Stable treatment efficiency was reached in the 28th, 40th, 55th, 58th, and 58th cycles with average ammonium removal rates of 100, 100, 80.9, 64.6, and 48.0%, respectively. The ammonium removal reaction followed zero-order reaction kinetics. Brunauer-Emmett-Teller (BET) and Scanning Electron Microscopy (SEM) demonstrated that the specific surface area and pore size of beads in stable phase were larger than corresponding values for the unused embedding beads, and microorganisms were found in the interior and external surface of beads. High-throughput sequencing illustrated that the microbial community composition significantly differed between the interior and external surface of embedding beads. 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subjects Activated sludge
Alcohols
Alginic acid
Ammonia
Ammonium
Bacteria
Batch reactors
Beads
Biological nitrogen removal
Bioreactors
Community composition
Denitrifying bacteria
Electron microscopy
Embedding
Embedding immobilization
High-strength ammonium
High-throughput
Immobilization
Kinetics
Microorganisms
Next-generation sequencing
Nitrification
Nitrogen removal
pH effects
Polyvinyl alcohol
Pore size
Porosity
Reaction kinetics
Reactors
Scanning electron microscopy
Sodium
Sodium alginate
Wastewater treatment
Water treatment
title Treatment of high-strength ammonium wastewater by polyvinyl alcohol–sodium alginate immobilization of activated sludge
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